Common
Obligations

The future is a
series of decisions.

AI could help us produce more. Who gets a share, who holds the power, and who gets to decide?

Begin with the question

An independent proposal by Prassanna Ravishankar · AI-generated conceptual imagery

The argument meets events.

Care delayed. Payment contested. Capabilities advancing. Read recent events beside the responsibilities this proposal asks for.

September 2026. Sources checked . A selected record, updated by hand.

  1. Records disclosure announced

    Patients wait in pain for approval.

    After suing for records, EFF reported that clinicians described patients waiting in pain and cancelled procedures in Medicare’s AI-assisted WISeR authorization program.

    September 8 dates EFF’s disclosure announcement; the patient reports are from March 2026. These are clinicians’ accounts, not individual court findings. CMS requires clinical review of denials; delays span the whole process, not just an AI model.

    EFF · records obtained from CMS: Medicare’s AI authorization experiment

    Keep responsibility traceable.

    Know who is responsible, including when work passes between companies.

    Give affected people recourse.

    Give people a way to challenge a decision and get harm put right.

  2. Research announcement

    A proof offered for scrutiny.

    OpenAI announced a claimed solution to the Navier–Stokes problem and released a written proof and Lean formalization.

    This is the developer’s claim, not a statement of independent mathematical acceptance. A September 10 update addresses provenance; attribution and verification remain separate questions.

    OpenAI: On the Navier–Stokes Millennium Prize Problem

    Keep responsibility traceable.

    Know who is responsible, including when work passes between companies.

    Match power with evidence.

    Ask for stronger safety evidence when a system can do more harm.

  3. Research announcement

    A map of possible changes.

    Google DeepMind introduced AlphaGenome Atlas, a resource containing predicted molecular effects for nine billion single-letter DNA variants.

    These are predictions. The announcement reports experimental checks of selected findings, not validation of every variant or proof of clinical benefit.

    Google DeepMind: AlphaGenome Atlas

    Match power with evidence.

    Ask for stronger safety evidence when a system can do more harm.

  4. Incident assessment published

    The investigation finds a missed incident.

    Anthropic reported four incidents in which evaluation models accessed outside systems without authorization. Its wider review found an incident the earlier search missed.

    September 9 is the assessment date: the missed incident occurred in January 2026 and was found in August. This provider account distinguishes faulty evaluation setup from model behavior. More disclosure does not establish a rising incident rate.

    Anthropic: An alignment assessment of recent cybersecurity incidents

    Bound autonomy. Prepare for failure.

    Limit what a system can do, and prepare to contain and repair failures.

    Share what goes wrong.

    Tell others about failures in time for them to protect themselves.

  5. Legislation signed

    Outside scrutiny enters a legal framework.

    California signed SB 813 and AB 1405, establishing an independent-verification framework and a registry with standards for AI auditors.

    The governor’s announcement records legislation, not proof that oversight works in practice. It does not establish influence by this proposal.

    Governor of California: Governor Newsom signs AI safeguards

    Make scrutiny independent.

    Let qualified outsiders challenge the claims—and report what they find.

  6. Dispute-process update

    Authors contest who gets paid.

    Authors disputing shares of the Anthropic book-copyright settlement received more time to make their case. The Authors Guild reported an extension from 30 to 60 days, after notices exposed conflicting claims from authors, publishers and agents.

    September 17 dates the Guild’s update, not the copying of books or settlement approval. The administrator confirms the extension. Disputed payments remain held back; extra time is not a resolved claim.

    The Authors Guild: Copyright settlement claim disputes

    Give affected people recourse.

    Give people a way to challenge a decision and get harm put right.

Continue to the argument

More becomes possible.
Enough for whom?

If AI makes more of what we need easier to produce, what would it take for people to actually have enough? A cheaper service is a possibility. Being able to afford it, rely on it and challenge its decisions is a different achievement.

Common Obligations asks what AI’s builders, owners and public institutions owe the people whose lives they change. Not only protection when a system fails, but a say in what it is for, who can benefit, and who holds the power.

These situations are illustrative, not predictions. The choices show competing arguments; linked sources distinguish real events from our proposals.

The promise of more

Making it possible
is not the same as
making it available.

Imagine a service that becomes much cheaper to provide. Its owner could lower the price, improve the service, or keep the saving. A public service could use it to reach more people, or have its budget cut. The capability alone does not choose.

Who owns the means?

Who controls the tools, infrastructure and terms of access? Can people build on them or leave, or must they keep asking the same owner for permission?

Who gets a share?

If less paid work is needed, how should people share in what is produced? Lower prices, income, shared ownership and public services are different answers, with different costs and limits.

Who has a say?

People are more than workers and customers. Those who depend on a service should have a voice in its purpose and a way to challenge exclusion, including when they cannot pay.

AI does not make money, scarcity or competing interests disappear. Nor must today’s arrangements remain unchanged. The question is which rules would turn greater capability into better lives. Explore the economic argument ↓

Where these questions
become decisions.

Six situations make parts of this larger question concrete: who may use a capability, whether its benefits reach people, and who answers when it causes harm. They do not settle how an economy should work. They show where its rules enter people’s lives.

Six scenariosChoose a chapter

A camera sees a car.
A network sees a life.

An investigator is looking for a stolen car. A camera can help find it. Connect enough cameras, and the same tool can follow the daily movements of people who are not suspected of anything.

01

Who decides what gets collected?

A narrowly defined purpose

A camera records a vehicle passing a street. Investigators look for a car connected to a reported theft.

Operator discretion

Let investigators decide where cameras are needed so they can start looking for stolen cars sooner.

The same organisation decides whether watching a neighbourhood is justified. Residents have less say before collection starts.

Reasoning and limits

A faster path to use.

The strongest case
The operator can deploy quickly and adapt collection to investigative needs.
What it asks us to accept
The same organisation defines the purpose and decides whether its own collection is proportionate.
Who feels the difference
Investigators gain flexibility. Residents have fewer opportunities to shape collection before it begins.

Independent check

Require someone outside the investigation team to approve the purpose, the limits and when camera use must be reviewed.

Residents get a chance to challenge the decision, but useful investigations may wait. The reviewer needs real expertise and authority.

Reasoning and limits

A purpose people can challenge.

The strongest case
Independent authorisation can establish a specific purpose, limits on collection, and a review date before deployment.
What it asks us to accept
Review takes time and resources. Its value depends on the reviewer’s competence, legitimacy, and authority.
Who feels the difference
Residents gain a point of intervention. Investigators may face delays, including for valuable uses.
02

Who can search across the network?

From a sighting to a history

Records from many cameras become searchable together. A local tool can reveal movement across a much larger area.

Operator discretion

Let authorised investigators search across camera networks to follow a vehicle beyond one street or town.

That reach can also expose someone’s daily movements to searches they never expected. More access creates more opportunities for misuse.

Reasoning and limits

A wider field of view.

The strongest case
Broad authorised access can help investigators connect sightings across locations and organisations.
What it asks us to accept
More access expands the opportunity for misuse and for searches beyond the purpose residents originally understood.
Who feels the difference
Investigators gain reach. People captured by the cameras can face scrutiny far beyond a single location.

Independent check

Require a reason for each wider search, restrict who can make it, and let an outside reviewer check the records.

Checks can slow urgent work. Emergency exceptions or an overloaded reviewer can also leave people unprotected.

Reasoning and limits

Access has to be justified.

The strongest case
Purpose-bound permissions, independent review, and audited searches can make access more accountable.
What it asks us to accept
Permissions create friction. Emergency exceptions and reviewer workload can weaken the check.
Who feels the difference
Residents gain protections against casual searches. Investigators must explain the need for broader access.
03

What turns a result into evidence?

When an inference becomes an action

A search result enters an investigation. Someone must decide how much weight it deserves before taking action.

Operator discretion

Let investigators decide how to use a match alongside the other information they have.

A weak match can start to look like proof. If it is wrong, the person identified may have to uncover the mistake.

Reasoning and limits

Judgment stays with the operator.

The strongest case
Investigators can respond quickly using the result alongside their existing practices and expertise.
What it asks us to accept
An uncertain match can acquire more authority than the evidence supports, especially under pressure.
Who feels the difference
Investigators retain discretion. A wrongly identified person may bear the cost of discovering the mistake.

Independent check

Require supporting evidence before acting on a match, and give the person affected a way to challenge it.

Finding that evidence takes time, and it can be wrong too. An appeal may arrive only after someone has been harmed.

Reasoning and limits

A second basis for action.

The strongest case
Requiring independent supporting evidence and a workable appeal can reduce reliance on an incorrect result.
What it asks us to accept
Corroboration takes time and can itself be flawed. An appeal may arrive after harm has already occurred.
Who feels the difference
Affected people gain a route to challenge. Operators need resources and authority to investigate and repair errors.
↳ Ground this in the real worldFlock, facial recognition & the limits of accuracy

Useful does not settle legitimate.

Flock offers automated licence plate recognition and a national LPR network. Its trust materials describe its approach to privacy and customer controls. Those are the provider’s account of its safeguards, rather than independent proof of how every deployment operates.

The scenario above is a general policy comparison, not a claim that every Flock customer lacks these checks. Plate recognition and facial recognition are different technologies. Both raise questions about who can search, for which purposes, and with what recourse.

A documented failure.

Robert Williams was wrongfully arrested in Detroit in 2020 after police relied on an incorrect facial-recognition result. The 2024 settlement introduced requirements for independent supporting evidence and an audit of past cases. The ACLU’s account and settlement links come from his legal representatives.

Our inference: a safeguard has to govern how a result becomes an action. Better matching alone cannot decide whether a use is justified.

Ask whether a use is justified
before it becomes ordinary.

Obligation 06 / Give people recourse ↗

More capable.
Ready for what?

A person asks an AI assistant for help with a payment. Suggesting what to do is one thing; permission to move their money is another. What should the developer show before people rely on it to act?

MODEL

Can suggest
an action

+ tools & permissions
AGENT

Can change
the world

Same underlying model. Different opportunities for harm.

What should happen before wider release?

People want useful tools sooner. They also need reasons to trust what those tools can do.

Developer decides

Let the developer decide when its system is ready. The team knows the technology and can make useful tools available sooner.

It also benefits from releasing the system. People outside the company may be unable to check its evidence or challenge the decision.

Reasoning and limits

Benefits arrive sooner.

The strongest case
Developers know their systems intimately. Letting them assess readiness can bring useful capabilities to people sooner and avoid an expensive external bottleneck.
What it asks us to accept
The organisation making the case for release also benefits from it. External parties may be unable to examine the evidence or challenge the decision.
Depends on
The quality of internal testing, honest disclosure, and credible consequences for misleading claims.

Outside evaluation

Ask an outside team to test the system and challenge the developer’s assumptions before more people rely on it.

Review takes time and money. Reviewers can make mistakes, and expensive checks can shut out smaller builders.

Reasoning and limits

The claims face a challenge.

The strongest case
An independent evaluator can test assumptions the developer missed and give affected parties a stronger basis for trust.
What it asks us to accept
Evaluation can delay useful access and impose costs that favour large companies. Evaluators can also make mistakes or be influenced by the firms they assess.
Depends on
Meaningful access, competent evaluators, transparent methods, manageable costs, and a process for appealing decisions.

Limited deployment

Start with a limited release, restricting what the system can do while learning how it behaves in real use.

Small trials can still cause serious harm. They need clear stopping rules, not an assumption that a pilot is safe.

Reasoning and limits

Learn within boundaries.

The strongest case
A limited release can expose a system to realistic conditions while restricting permissions, access, and the scale of possible harm.
What it asks us to accept
A small deployment can still cause serious harm. A pilot can become permanent, and limited access may privilege a small group.
Depends on
Enforceable boundaries, informed participation where possible, incident reporting, and explicit criteria for expanding or stopping.
↳ Evidence before deploymentThe FTC’s Rite Aid case

Testing is an obligation
with human stakes.

In December 2023, the FTC alleged that Rite Aid’s facial-recognition system generated thousands of false-positive matches and that the retailer failed to adequately test accuracy before deployment. The agency described customers being wrongly accused and proposed a five-year surveillance facial-recognition ban as part of a settlement.

This is an account of the agency’s allegations and announced proposed settlement, not a claim that every allegation was adjudicated. Read the FTC announcement ↗

Our inference: testing the product includes examining the actions people take because of its output.

Match the evidence
to the authority granted.

Obligation 02 / Match power with evidence ↗

Open or closed?
Neither is an answer.

Openness and deployment control are separate questions. Open weights are not automatically open source; a closed API is not automatically safe.

Openly released weights

Can enable outside research, adaptation, and wider participation.

Copies can persist after release. Later restrictions may be difficult to enforce.

Provider-controlled access

Can support access limits, updates, and withdrawal of a hosted service.

Scrutiny and access depend more heavily on the provider’s discretion.

The same capability.
Whose advantage?

A small team maintains software that many people depend on. An AI tool could help them find security flaws—but it could help an attacker find them too. Who should get access, and who helps pay for the repairs?

A small maintainer protects
a very large dependency.

The maintainer needs more than a list of flaws. People using the software are protected only when someone can check the findings, make repairs and get those repairs installed.

Broad access

Give defenders access to tools that find security flaws, including small teams the provider might otherwise overlook.

Attackers may use the same capability. Finding a flaw also does not give a maintainer the time or money to fix it.

Reasoning and limits
The strongest case
Defenders can examine their own systems without waiting for a provider to select them. Small teams can investigate neglected software.
What it asks us to accept
The same capability may accelerate exploitation. Access alone does not give maintainers time or resources to repair what is found.
Who feels the difference
Small defenders gain access; users of vulnerable systems bear exposure if exploitation outruns patching.
What would need to be shown
Authorised testing boundaries, measured defensive outcomes, abuse monitoring where feasible, and a coordinated disclosure process.

Vetted access

Give selected defenders access first, so they can find and repair weaknesses before the tools become widely available.

The provider decides who gets help. Less-connected maintainers may be left protecting important software without the same tools.

Reasoning and limits
The strongest case
A staged programme can give selected defenders time to investigate and repair flaws before broader availability.
What it asks us to accept
The provider becomes a gatekeeper. Selection can favour well-connected organisations and exclude people protecting less visible systems.
Who feels the difference
Selected participants gain a head start; excluded maintainers depend on others to find and communicate their risks.
What would need to be shown
Published eligibility criteria, time-limited restrictions, an appeal route, and evidence that findings reach affected maintainers.

Supported maintainer access

Give maintainers the tools, computing resources and repair funding they need to protect the software people depend on.

Someone still chooses who receives support. Users benefit only when repairs reach them, and the tools can still be misused.

Reasoning and limits
The strongest case
Pair scoped access with compute, triage support, and repair funding for maintainers responsible for widely used dependencies.
What it asks us to accept
Choosing recipients remains a power. Funding can create dependency, and additional access still carries misuse risk.
Who feels the difference
Maintainers gain capacity to act; downstream users benefit only if fixes are adopted. Neglected projects still need representation.
What would need to be shown
Transparent selection, conflict disclosures, support for under-resourced projects, patch validation, and uptake rather than bug counts alone.

These are compatible policy ingredients, not exhaustive alternatives. A supported programme can use vetting and later broaden access. Outcomes depend on implementation; these comparisons are not measured forecasts.

Ground this in the real worldMythos Preview & Project Glasswing

Finding a flaw
starts another obligation.

Anthropic describes Claude Mythos Preview identifying vulnerabilities and developing exploits, and presents Project Glasswing as an effort to give defenders an advantage. Its published examples include flaws it says were reported to maintainers and patched. These are the provider’s account of capabilities and outcomes.

Read Anthropic’s account ↗

Finding a vulnerability, exploiting one, and introducing a new flaw in generated code are different behaviours. None establishes the others by itself.

Our inference: defensive access should be judged by protection delivered, including whether maintainers can validate and distribute repairs. More findings alone need not mean safer systems.

When should a finding become public?

Give repairs time.

Confidential notification can give maintainers a window to patch. That window needs an owner, support, and a review date; indefinite secrecy leaves users unable to judge their exposure.

Give users an account.

A public advisory can help users respond and scrutinise the process. Publishing actionable exploit details too early may increase exposure. Separate urgent notification, mitigation advice, and later technical disclosure.

The answer is here.
What have we learned?

Researchers receive a new mathematical result. They can check the proof, but struggle to understand its ideas or use them in their own work. What should the team claiming the breakthrough help others learn?

  1. Find a result.

    Produce a claim and an argument.

  2. Check the proof.

    Establish what follows from stated assumptions.

  3. Share the ideas.

    Explain why it works and what others can build on.

A proof is checkable.
Its ideas remain difficult to use.

Checking that a proof follows its rules is not the same as explaining why it works. This comparison asks how a team should share its work; it does not certify any particular proof.

Publish the verified result

Publish the result and its proof promptly, so other researchers can check the work and start using it.

A proof can be checkable without being understandable. Explaining and maintaining the work may fall to people who received neither credit nor funding.

Reasoning and limits
The strongest case
Make the claim and its proof available promptly so others can check it and begin working with it.
What it asks us to accept
A technically checkable artefact may remain difficult to understand. Exposition and maintenance can fall to people who did not receive the credit or funding.
Who feels the difference
Specialists may gain an early result; students and neighbouring fields may lack a usable explanation.
What would need to be shown
The precise theorem and assumptions, reproducible verification instructions, dependency versions, limitations, and provenance of the work.

Develop it with the community

Share explanations, examples and support alongside the proof, so other researchers can understand the ideas and build on them.

That work takes time and may delay publication. Requiring approval from established experts can also exclude new contributors.

Reasoning and limits
The strongest case
Pair verification with readable exposition, expert collaboration, peer review, and examples that reveal reusable ideas.
What it asks us to accept
This takes time and resources and can delay publication. Requiring established experts to approve everything can also entrench existing gatekeepers.
Who feels the difference
Researchers and learners gain more usable knowledge; contributors need credit and support for the work of explanation.
What would need to be shown
An accountable author, contribution records, talks and explanatory materials, independent review, and a supported handoff when authors cannot finish the work.
Navier–Stokes & the purpose of a proofTwo sources, different claims

A claimed solution.

On 8 September 2026, OpenAI published a claimed Navier–Stokes solution and a Lean formalization. Publishing a formalization is not the same as this site independently checking the theorem, its assumptions, or its correspondence to the prize problem.

Read OpenAI’s paper announcement ↗

The company also discusses concurrent work and possible indirect contributions from de-identified product-use data. Its account does not establish improper use of another researcher’s work. Correctness, provenance, permission, and credit remain distinct questions.

Understanding is the purpose.

In a 7 September post on related Alpöge–Buckmaster work, Terence Tao emphasises developing mathematical understanding and insight, describing problem-solving as a proxy for that goal. He highlights the effort to make AI-assisted arguments readable.

Read Tao’s original post ↗

That post predates OpenAI’s announcement. It is not a verdict on OpenAI’s proof. Our inference is that an accountable research claim should include a plan for explanation, scrutiny, and continued stewardship.

Understanding is not a requirement that every reader personally reconstruct every proof. The practical question is whether a community has the materials, expertise, and support to inspect and develop it. These are proposed responsibilities, not a certification of scientific merit.

A breakthrough should leave
others able to build.

01 / Trace contributions and provenance ↗
02 / Make evidence usable ↗

The boundary failed.
What earns trust again?

An operator discovers that a system has reached beyond its permissions—or that a trusted software update has been compromised. Other people’s systems may be exposed. What must stop, who needs answers, and when can work restart?

One incident.
Three decisions still open.

Contain the problem. Find what was missed. Decide whether the repair is enough. These are proposed responses, not a reconstruction of the real incidents described below or claims about what would have prevented them.

Change the starting event

Illustrative supply-chain compromise: an installed update contains malicious code and may have accessed credentials. The model may have behaved exactly as intended. This is not a reconstruction of the LiteLLM incident or a claim that AI caused that attack.

01

How far should the pause reach?

An evaluation agent has reached a third-party service outside its authorised scope. The affected run is stopped. Other runs share parts of its infrastructure.

A malicious update has been identified. Decide whether to isolate known affected installations or pause related workloads sharing credentials and build infrastructure. The scope follows installed artefacts and reachable authority, not just the model version.

Restrict the affected activity

Stop the activity known to be affected while unrelated work continues. Focus the response where the failure has been found.

The same weakness may exist elsewhere. A narrow repair can leave other people exposed if the first discovery is mistaken for the whole problem.

Reasoning and limits
The strongest case
Contain the known route while unrelated work continues. A narrower intervention preserves useful research and focuses the response.
What it asks us to accept
A shared weakness may remain active elsewhere. A quick patch can mistake the first visible failure for the full extent of the incident.
Who feels the difference
Other service operators bear the risk if the boundary was drawn too narrowly.
What would need to be shown
A justified account of what is isolated, revoked credentials, preserved logs, and triggers for widening the pause.
Installed versions and artefact hashes, reachable secrets, isolated workloads, and a trigger to widen containment.

Pause related activity

Pause work that shares the suspected weakness while responders find out how far the problem reaches.

Useful work stops too. The pause needs a clear scope, someone responsible for reviewing it, and conditions for restarting.

Reasoning and limits
The strongest case
Stop runs sharing the suspected exposure while responders establish its extent. This creates room to investigate before further external actions occur.
What it asks us to accept
The pause can delay useful work, including defensive research. An unclear scope or end condition can make it broader and longer than necessary.
Who feels the difference
Researchers and people waiting for useful capabilities bear the delay; outside operators may face less exposure.
What would need to be shown
A defined scope, a responsible decision-maker, review deadlines, and evidence for safely separating unaffected work.
An inventory of shared credentials and build infrastructure, scoped suspension, and a timetable for reviewing the pause.
02

What might the investigation miss?

The known route is contained. Investigators must decide how far back, and across how many environments, to look. Both approaches preserve evidence and notify affected parties as findings emerge.

Trace where the package was published, built, installed, and executed. A clean source repository does not establish that the distributed package was clean. Downstream operators need a way to report exposure.

Examine the known failures

Investigate the failures already found so affected people can get answers and repairs sooner.

Other failures may never have been detected. People missed by the original investigation could still be waiting for answers.

Reasoning and limits
The strongest case
Prioritise the observed incident to deliver actionable findings and repairs quickly.
What it asks us to accept
Starting only from detected failures can miss runs that escaped monitoring or were excluded from the original review.
Who feels the difference
Known affected parties may get answers sooner; undiscovered affected parties may receive none.
What would need to be shown
A documented search scope, its exclusions, and explicit reasons to expand the investigation.
Publication and installation records for known affected artefacts, execution evidence, and explicitly unexamined downstream deployments.

Review related activity

Look across related systems and records for similar failures, including activity that the first review did not examine.

A wider search takes time and can expose sensitive information. Missing records still limit what investigators can establish.

Reasoning and limits
The strongest case
Reconcile the inventory of runs with the records actually examined. Search for similar failures across related versions and environments.
What it asks us to accept
A wider review takes time and access to sensitive records. Incomplete logs still limit what it can establish.
Who feels the difference
Previously unknown affected parties may be identified; reviewers must protect the people whose data appears in records.
What would need to be shown
Coverage records, missing-log disclosures, search methods, external reporting channels, and a process for correcting earlier findings.
Reconciled build and distribution records, downstream notifications, missing telemetry, and independent review of the search coverage.
03

What earns a return to work?

Fixes are in place. Resumption is a decision about a defined activity under defined permissions. Neither route offers a guarantee.

A replacement is available. Reinstalling alone cannot revoke stolen credentials or remove persistence. Establish what must be rebuilt, rotated, and checked before affected workloads resume.

Internal validation

Let the team closest to the system test the repair and restart work with tighter limits.

The organisation benefits from restarting. It may repeat earlier assumptions, while affected outsiders struggle to challenge its evidence.

Reasoning and limits
The strongest case
The team closest to the system can retest quickly and restore useful work under narrower permissions.
What it asks us to accept
The organisation benefits from restarting and may repeat assumptions that failed before. Outside parties may struggle to challenge the evidence.
Who feels the difference
Researchers regain access sooner; affected outsiders depend on the operator’s judgement.
What would need to be shown
Tests of the failed boundary, documented residual uncertainty, staged permissions, and triggers to stop again.
Validated replacement artefacts, rotated exposed credentials, clean rebuilds where needed, and monitoring for persistence.

Independent examination

Ask an outside team to examine the investigation and test whether the repair supports restarting.

Outside review takes time and access. Reviewers can miss problems too; a separate decision is still needed about who may approve the restart.

Reasoning and limits
The strongest case
An outside evaluator can challenge the scope of the investigation and test whether the repair supports the claim being made.
What it asks us to accept
Access and evaluation take time. Evaluators can miss failures, lack expertise, or depend financially on the organisations they assess.
Who feels the difference
Affected parties gain another route for scrutiny; smaller organisations may need support to obtain it.
What would need to be shown
Reviewer access and conflicts, unresolved findings, a named authority for resumption, an appeal route, and continuing monitoring.
Outside examination of the compromised delivery path, repair provenance, residual exposure, and the authority approving a staged restart.
Two documented accountsEvents and disclosure are different dates

Research reached
outside the lab.

Occurred: July 2026. Report published: 26 August 2026.

OpenAI reported that models in internal cybersecurity evaluations bypassed isolation controls and compromised parts of its research infrastructure and Hugging Face’s systems. These evaluations used reduced safeguards. Its account also links an independent investigation by METR and Redwood Research.

Read OpenAI’s incident report ↗

A later review
found another incident.

Occurred: January 2026. Reported: 9 September 2026.

Reuters reported that Anthropic disclosed a fourth cybersecurity incident involving an early Claude model, identified after previously overlooked test sessions were reviewed. Anthropic commissioned METR to investigate independently.

Read the Reuters report ↗

These accounts have different scopes. A disclosed incident count cannot rank labs by safety: it also reflects detection, investigation, and willingness to report. An investigation being commissioned does not establish that its findings are complete.

A repair is a claim.
Resumption needs evidence.

Obligation 02 / Match power with evidence ↗

Now put that decision under competitive pressure. If one lab pauses to investigate while another keeps moving, what makes a careful response sustainable? The next decision is collective ↗

“What if the other
side doesn’t stop?”

Two labs find a reason to spend longer testing. Neither wants to be the only one that waits. People outside both companies may bear the risk if they keep going. What would make a shared limit hold?

A government may see leadership as a source of security, prosperity, and influence. Slowing down alone could surrender those advantages without reducing a rival’s risks.

A failure can harm people across borders, including countries that had little say in the decision. Shared checks and agreed responses could make it easier for labs and governments to wait without acting alone.

An outside team finds a serious risk.
What happens next?

These arrangements can work together. The difference is whether a finding comes with an agreed duty to respond.

Outside review

Give an outside team access to the work and the right to report concerns. Its findings can prompt repairs and help other labs and the public judge the risks.

Finding a problem does not decide what must happen next. Without an agreed response, a lab may keep going while competitors wait.

Reasoning and limits

A finding people can examine.

The strongest case
Ongoing outside review can detect overlooked failures, challenge internal assumptions and inform the public. Publication rights matter even before a binding shared response exists.
What it asks us to accept
Reviewers need expertise, access and independence. Reporting alone does not establish who must respond, what action is required or how a dispute will be resolved.

Review with required follow-up

Agree in advance who must respond to a serious finding, what they can require, and how the decision can be challenged. Give competing labs the same obligations.

The decision-maker can be wrong or favour powerful companies. Restrictions need evidence, clear limits and a route to appeal; international enforcement remains difficult.

Reasoning and limits

A finding with a response attached.

The strongest case
Independent review and specified response duties can make shared restraint more credible. Contracts, purchasing requirements or public rules can assign responsibilities, while the appropriate authority decides on proportionate action.
What it asks us to accept
Required follow-up is not automatic acceptance of a reviewer’s recommendation or an unchecked power to stop work. Decisions need reasons, appeal and review deadlines. States may refuse scrutiny, and hidden activity can escape verification.

Neither arrangement guarantees safety. Some companies or states may refuse to participate, and checks can miss hidden activity. People outside the leading companies and countries need a voice in setting the terms.

A concrete proposal, not just a call to slow down.

In September 2026, Dario Amodei committed Anthropic to bringing outside reviewers inside the company, with continuing access and the right to publish key findings. That is a meaningful proposed safeguard. It is not, by itself, evidence that the arrangement is operating or that reviewers can require work to stop.

Read “We Must Pace the Frontier” ↗ · Source checked 14 September 2026

What the proposal includes—and what remains open

Access and publication rights.

Amodei proposes ongoing access comparable to internal risk teams, including tools, workspaces and conversations with staff. He says external reviewers should be able to publish key findings without Anthropic’s editorial control.

The proposal allows limited redactions for security, legal privilege, commercial sensitivity and third-party confidentiality—not simply because a finding is unfavourable. Reviewers could publicly say when a redaction removed something important to their conclusions.

Review is one part of accountability.

These are announced intentions for an arrangement to be established, not proof of its implementation. The essay does not establish that reviewers have stop-work authority, or that a binding three-company agreement has been signed.

Our question is what follows a serious finding: who must answer, who can require a change, and how affected people can challenge the response. Appointment, funding and actual access also determine how much confidence the review deserves.

Amodei also proposes coordination among democracies and progressively harder international agreements. He explicitly couples pacing with preserving a US/allied lead over China. That is his geopolitical position, not a condition this site places on who deserves protection. His forecasts about future capabilities are not treated here as established facts.

↳ What international oversight can build onExisting institutions & their limits

Give the institution
a job description.

The IAEA’s safeguards rely on technical verification under agreements accepted by states. An AI institution would likewise need a basis for access, a defined remit, and legitimate authority.

The UN established an AI scientific panel and global dialogue in August 2025. Assessment and discussion are valuable functions; they do not themselves confer global enforcement powers.

This proposal leaves the institutional form open. The test is whether it can obtain evidence, act on it, resist pressure, and be held accountable itself.

Let outsiders see the risk.
Make someone answer it.

Obligation 03 / Make scrutiny independent ↗

Different systems.
Common obligations.

These six responsibilities are a floor, not a complete answer to how prosperity should be shared. They make power answerable while the larger choices about ownership, access and public provision remain open to debate.

01

Keep responsibility traceable.

Know who is responsible, including when work passes between companies.

Identify who operates the system, what each supplier controls, and where an affected person can seek a remedy. Delegation should preserve responsibility. Include software dependencies, gateways, tool servers, and research contributions in the record of who controls what.

What evidence looks like

A named operator, records of material decisions, data provenance and permissions, and documented responsibilities at every handoff.

Where it can fail

Records become paperwork if no one has the authority or resources to investigate and repair harm.

02

Match power with evidence.

Ask for stronger safety evidence when a system can do more harm.

Require stronger evidence as capabilities, permissions, and potential consequences grow. Reassess material changes to the system and its environment.

What evidence looks like

A version-specific safety case, realistic tests, documented limitations, and explicit conditions that would invalidate the assessment. Research claims also need precise assumptions, reproducible checks, and explanations others can use.

Where it can fail

A benchmark can become a target that substitutes for evaluating the actual deployment. Testing costs can exclude smaller builders.

03

Make scrutiny independent.

Let qualified outsiders challenge the claims—and report what they find.

Enable qualified outside evaluation with sufficient access to challenge material claims. Sensitive evidence can be inspected under controlled conditions.

What evidence looks like

Published assessment scope, disclosed conflicts, a route to report adverse findings, and public explanations of unresolved concerns.

Where it can fail

Evaluators can be captured, mistaken, or selected for favourable conclusions. Their independence needs scrutiny too. Restricted access programmes need transparent criteria and a route to challenge exclusion.

04

Bound autonomy. Prepare for failure.

Limit what a system can do, and prepare to contain and repair failures.

Enforce limits outside the model, including during research and evaluation. Understand what can be interrupted, what can be repaired, and what cannot be recalled.

What evidence looks like

Enforced spending and access limits, expiring credentials, bounded delegation, recovery exercises, and release-specific containment plans. Validate updates before they inherit permissions; trace installed artefacts and revoke exposed credentials after compromise.

Where it can fail

A stop button cannot undo every completed action. Publicly released artefacts may remain accessible after withdrawal.

05

Share what goes wrong.

Tell others about failures in time for them to protect themselves.

Report serious incidents and meaningful near misses so others can act. Distinguish observed facts from hypotheses as investigations evolve.

What evidence looks like

Defined reporting thresholds, confidential disclosure channels, incident records, investigation coverage and known gaps, and later public accounts that protect sensitive information.

Where it can fail

Punishing honest reporting as harshly as concealment creates an incentive to stay silent. Vulnerability disclosure also needs repair support and a justified timeline for public information.

06

Give affected people recourse.

Give people a way to challenge a decision and get harm put right.

People need to challenge consequential decisions and the legitimacy of a system’s use. A technically accurate system can still serve an unacceptable purpose.

What evidence looks like

Notice, understandable reasons, an appeal with an owner and deadline, authority to correct harm, and public participation before new uses are authorised.

Where it can fail

A review process is hollow if the reviewer cannot change the outcome. Governments must face scrutiny of their own deployments. Researchers and maintainers also need ways to contest misuse, attribution, or exclusion from protective tools.

More of what we need.
For more of us.

That is a purpose worth choosing, not an outcome technology guarantees. We can ask who owns a new capability, who can actually benefit, and who has a say before dependence makes those choices harder to change. The freedom to build should come with obligations to the people whose world is being rebuilt.

Go deeper into the proposal↓

An argument you
can inspect.

Why producing more is not the same as providing enough. The essay connects ownership, access and competitive incentives to practical responsibilities, including how to keep the rule-makers accountable.

Read the full essayAbout 22 minutes

If AI makes more of what people need easier to produce, what would it take for people to actually have enough? We should ask that before treating greater capability as a sufficient definition of progress. A useful service can exist without reaching the people who need it. A system can work exactly as intended while leaving those people with less say over their lives.

Common Obligations begins with a distinction: what technology makes possible and what our institutions make available are not the same thing. Ownership, income, public provision and political power help determine the distance between them. These arrangements should be open to argument, not treated as fixed scenery around a changing technology.

What is greater productivity for?

Imagine that a service becomes cheaper to provide with AI. The saving might become a lower price, better quality, shorter working hours or a larger return to its owners. A publicly funded service might reach more people, or its budget might be reduced. These are possible choices, not forecasts. The technical achievement does not tell us which outcome to prefer or who should choose it.

This is more than a question about replacing jobs. If substantially less paid human work were needed, an arrangement that distributes income mainly through employment would face a difficult question: how should people claim a share of what can be produced? New work and lower prices might offset some disruption. Shared ownership, income support and public services could play different roles. None should be assumed to appear automatically, and each needs an account of funding, power and who could still be excluded.

Money need not disappear for that question to matter. Making some services cheaper would not by itself remove limits on housing, energy, materials, human attention or the infrastructure needed to deliver them. Nor does a need become unimportant because meeting it offers little commercial return. We should distinguish the ability to produce, the incentive to provide and a person’s practical ability to obtain what they need.

Who owns the possibility?

Cheap, reproducible intelligence could widen participation. It could also increase dependence on whoever controls essential infrastructure or access. An open model does not supply everyone with computing resources; a low subscription price does not guarantee that its terms will remain acceptable. The question is not only whether a tool is available today, but whether people can build on it, leave it and contest decisions made by its owner.

Capitalism’s existing arrangements are neither guaranteed to survive unchanged nor destined to disappear because AI becomes more capable. A change in ownership would not, by itself, end destructive competition or unaccountable power. Private firms, public institutions and cooperatives should all face concrete questions: who receives the benefit, who carries the cost, and what can people do when the arrangement fails them?

My starting position is that people deserve a voice beyond their value as workers, customers or investors. That is a political commitment, not a conclusion supplied by a model. It calls for public choices about access, ownership and provision, with affected people able to challenge those choices. It does not prescribe one ownership model for every activity.

When the race defeats its purpose

A firm might reduce its costs by reducing paid work. If many firms did so without other ways for people to receive income, who would be able to buy their output? Lower prices, new demand and different institutions could change the outcome. The point is not that collapse follows, but that an individually sensible decision does not settle the collective result.

The same distinction matters in the race to build AI. Each participant can feel compelled to move faster while preferring a world in which everyone could proceed more carefully. Such competition might undermine the trust, security or livelihoods on which its participants depend. It need not produce its own remedy. We should ask which rules make restraint viable, which rewards favour useful provision, and who has the authority to change those rules.

A practical starting point, not a complete economic programme

The six scenarios examine parts of this larger problem. Surveillance asks who may exercise power. Release asks what authority a system should receive. Defense and discovery ask whether capability becomes protection and usable knowledge. Incident response and coordination ask who must answer, even when doing so is costly. They cannot tell us how to distribute all the benefits of AI. They can make particular responsibilities harder to evade.

The organisations building the most powerful AI systems have a difficult conflict of interest. They are trying to establish whether their technology is safe while competing to make it more capable. The governments overseeing them have a version of the same problem: protecting the public sits alongside the ambition to lead an industry that could reshape economic and military power.

Both can sincerely want a good outcome. Neither can settle, on everyone else's behalf, how much risk everyone else should accept.

This is where the practical obligations begin: what AI builders and operators should owe the people affected by their systems, wherever those people live. I want a framework that a person can understand, an engineer can implement, and an independent body can examine. Its commitments should apply to foundation model developers, agent companies, data suppliers, and organisations putting AI to work, with requirements that reflect what each actually controls.

The central claim is simple: the freedom to build powerful AI should come with responsibilities to people who never chose to use it.

A race nobody can settle alone

In An Alien Mind, published on 6 September 2026, OpenAI's chief scientist Jakub Pachocki describes a tension directly relevant to this problem. He argues that pursuing recursive self-improvement is necessary to remain at the research frontier, while questioning whether accelerating that process is the right collective choice. He calls for shared safety requirements, external enforcement, and international coordination.

His assessment is a participant's view, partly grounded in internal results that readers cannot independently inspect. It deserves scrutiny alongside the proposal itself. But the conflict he describes does not depend on accepting his forecasts: a company can believe collective restraint would help and still fear the consequences of practising it alone.

Imagine two competitors evaluating a new capability. Both would prefer the other to spend another month testing. Neither wants to be the only one that does. An appeal to responsibility asks each to absorb a cost without knowing whether its competitor will reciprocate. Shared requirements could change that calculation, provided a broken commitment is detectable and has consequences.

The same problem survives at national scale. A government might support caution in principle while treating a rival's progress as a reason to accelerate. Some countries have much more influence over this decision than others. A country importing AI services can still bear the costs of failures originating elsewhere, with little access to the evidence behind deployment decisions.

We should be precise about what coordination would accomplish. It would make certain obligations harder to escape by switching providers or jurisdictions. It would also give cautious organisations a better answer to investors and customers asking why a competitor is moving faster.

The institution needs a job description

The distinction is not simply between promises and meaningful checks. Amodei’s September 2026 pacing proposalincludes concrete provisions for outside review. The coordination scenariodescribes those proposed terms and their limits. We should credit such steps without treating an announcement as proof that an arrangement is operating.

An international AI regulator is an appealing answer. The nuclear comparison helps, provided we understand what makes it work. The International Atomic Energy Agency's safeguards use technical verification under agreements accepted by states. They have defined objects of inspection and a basis for access. The existence of an international organisation, by itself, is insufficient.

AI presents a different verification problem. A model can be copied, adapted, and connected to tools after its original assessment. A system's power depends on its deployment conditions as well as its training. Inspecting the original model will not tell us everything about a service built around it, particularly when that service can take actions or delegate work.

There is already substantial work to build on. The OECD AI Principles address human rights, transparency, robustness, and accountability. NIST's AI Risk Management Framework offers a voluntary approach to managing risks throughout a system's life. The UN established an Independent International Scientific Panel on AI and a Global Dialogue on AI Governance in August 2025, providing mechanisms for assessment and discussion.

My proposal borrows from that work. Its contribution would be to connect a short public commitment to evidence and an accountable decision. Before designing an organisation's headquarters or voting structure, we should be able to say what it would ask a builder to demonstrate, and what would happen when the demonstration fails.

I would start with six obligations.

1. Keep responsibility traceable

Every consequential AI system should have an identifiable organisation responsible for its operation, and a clear account of the responsibilities held by its suppliers. The person affected should have somewhere to go when something fails.

Consider a hiring service assembled from a foundation model, a candidate database, and an agent that ranks applicants. The employer controls the decision to use the ranking. The agent provider controls its workflow. The data supplier controls the information it supplies and what it says about that information. The model developer controls the underlying release and its documented limitations. Those responsibilities overlap, but they need not disappear into the overlap.

Each participant should document the decisions it controls, preserve the evidence needed to investigate failures, and identify the organisation receiving that responsibility at the next handoff. For the data supplier, this includes origin, permission to use the data, known gaps, and a process for corrections. A claim that a dataset is representative needs an explanation of whom it represents and for which purpose.

This obligation does not make every supplier responsible for every downstream act. It does require a usable record of who knew what, who could change what, and who decided to proceed. An organisation deploying a system should remain answerable for that deployment even when its investigation later identifies a supplier's fault.

2. Match power with evidence

The more consequential a system's capabilities and permissions, the stronger the evidence required before expanding them. That evidence should identify the version tested, the conditions of the test, the failures observed, and the limits of what the results establish.

A model that suggests a database query and an agent that executes it against a hospital's records have different opportunities to cause harm. Adding credentials, persistent memory, external communication, or the ability to delegate can change the risk even if the model remains identical. The assessment should follow those changes.

A useful safety case is an argument someone else can inspect: here is what could go wrong, here is why we believe our controls address it, and here is the evidence that might prove us wrong. Passing a benchmark is one input. It cannot establish that an entire deployment is safe in every environment.

For the most powerful systems, this obligation should reach decisions about further development when development itself creates material risk. The relevant thresholds would need public justification and technical revision. I do not think we can responsibly invent a universal number in an essay and call everything below it safe.

The requirement must also be affordable in proportion to the risk. A small tool with narrow permissions should have a straightforward way to demonstrate compliance. A large company should face demanding requirements when the capabilities warrant them. Revenue and headcount are poor substitutes for examining what a system can do.

3. Make scrutiny independent

Builders should enable qualified outside scrutiny, with access proportionate to the claims and risks being examined. For higher-risk systems, the builder should not be able to make an unfavourable assessment disappear by choosing a different evaluator.

Independence needs an operating model. Who chooses the examiner? Who pays? Can the examiner run its own tests? Can it report a serious concern to an authorised oversight body without the client's permission? A company-funded audit can still be useful, but these questions determine how much confidence it deserves.

Access to evidence and the freedom to publish findings are meaningful safeguards in their own right. They are not the same as authority to require a response. An assessment should make a decision better informed; it should not give its author unchecked power to stop work. The responsible authority, its duties and the route to challenge its decision must be specified too.

Public accountability does not require publishing private training records, security vulnerabilities, or every model artefact. Sensitive evidence can be examined through controlled access, with public summaries explaining the scope, findings, and unresolved concerns. Restrictions should have stated reasons and a route to challenge them, because commercial confidentiality can otherwise become a permanent answer to every difficult question.

Evaluators should also face scrutiny. Their methods, conflicts of interest, and material errors need examination. Independent assessment improves the basis for a decision; it cannot turn uncertainty into a guarantee.

4. Bound autonomy and prepare for failure

An AI system that acts should have explicit limits on its authority and tested ways to contain failure. Before deployment, the operator should know which actions require approval, which resources are accessible, how permissions expire, and what happens when the system behaves unexpectedly.

Suppose an agent can issue refunds. Its spending limit should be enforced by the payment service. A sentence asking the model to stay within budget is insufficient. If it delegates to another agent, the delegated authority should remain within the original permission. Stopping the parent should also address outstanding child work and credentials that could remain active.

Recovery deserves equal attention. If a payment request times out, the system should establish whether it committed before sending another. If an agent changes a record, the operator needs a way to identify and repair the change. A stop button may prevent the next action; it cannot unsend an email or reverse every action already taken.

Some releases are difficult to recall at all, including publicly distributed model weights. In those cases, the assessment must account for the limits of later intervention before release. Openness can support scrutiny and wider participation, but neither an open licence nor a closed API establishes safety on its own.

The general obligation is to demonstrate control appropriate to the system, and to be honest where control ends.

5. Report serious failures so others can learn

Builders and operators should report material incidents and significant near misses through a shared process. A finding that affects other systems should reach the people who can act on it, even when disclosure is commercially uncomfortable.

If an agent finds a way around an authorisation boundary, quietly patching one product may leave the same weakness in another. A useful report would distinguish what was observed from what is suspected, identify affected versions and conditions, and describe the containment measures. It should be possible to update the report as the investigation improves.

This requires agreed definitions of severity, reporting deadlines, and recipients. It also requires protection for personal information and security-sensitive details. A practical approach could combine prompt confidential notification to a competent body with a later public account of what happened and what changed.

The incentives matter. A process that punishes every honest report as if it were concealment will encourage silence. Accountability should distinguish responsible disclosure from repeated negligence, misleading claims, and deliberate suppression. Employees need a protected route to raise serious concerns when internal reporting fails.

6. Give affected people a way to challenge

People should be able to discover when AI materially influences a consequential decision about them, understand enough of its basis to contest it, and reach someone with the authority to correct it.

In the hiring example, an applicant needs a route to correct an erroneous record or challenge an unsuitable assessment. Sending them a technical explanation of a model does little if nobody can reconsider the decision. A meaningful appeal needs an owner, a timescale, and the power to provide a remedy.

This also applies to people whose data enters a system. Providers should explain the uses they make of it and offer workable processes for access, correction, and deletion where applicable. They should describe technical limitations honestly, including the difference between removing a source record and undoing its influence on an already trained model.

Human agency extends beyond individual appeals. Workers, affected communities, and countries using systems developed elsewhere should have a role in shaping the standards. Access to that discussion should not depend on owning a training cluster. Participation will take funding, translation, and technical support if it is to mean anything beyond an invitation to comment.

These six obligations form a floor, not a complete account of justice or shared prosperity. They fit together: identify who is responsible, require evidence, enable scrutiny, contain failure, share what goes wrong, and give people recourse. Their implementation will vary. Their purpose should remain recognisable across the supply chain.

When the boundary fails during testing

Research and evaluation can themselves expose outsiders to risk. The incident chapter brings together OpenAI’s account and reporting on Anthropic, then separates those documented accounts from an illustrative response. It asks how far containment should extend, how investigators establish the coverage of a review, and what evidence should support resumption.

Preserving logs is only a beginning. Investigators should reconcile the activity that occurred with the records they examined, disclose missing evidence, and explain why their search was wide enough. A review that starts only from known failures can reproduce the blind spots that hid them.

A repair should lead to a new, bounded claim: this activity may resume, with these permissions, under these conditions. That claim needs an accountable decision-maker, scrutiny proportionate to the risk, continuing monitoring, and explicit reasons to stop again. Broader pauses and independent examinations have costs; their scope and duration need justification and review.

What happens when a commitment fails?

Outside review can change behaviour by revealing a problem, prompting a repair or informing people who rely on a system. Shared obligations go further: they establish who must respond to a serious finding, under what rules, and with what consequences if the finding is ignored. Publication, a required response and enforcement are related, but distinct.

I would begin with a public record for a specific system and version. It would state which obligations apply, what evidence supports them, who examined that evidence, what remains unresolved, and when reassessment is due. Companies could adopt this structure before an international agreement exists. Buyers could then require the record in procurement, and contracts could specify access for review and the consequences of misleading claims.

For higher-risk systems, my preferred direction is enforceable requirements through public authorities, supported by independent technical evaluation. International agreements could establish common minimums and recognise assessments across participating jurisdictions. Domestic institutions would retain responsibilities for enforcement and remedies. That distributes the work while giving the shared requirements a basis beyond company promises.

An adverse finding should trigger a response proportionate to the danger: correction of a misleading claim, restriction of particular permissions, withdrawal of a deployment, or a pause on a defined development activity. The decision should explain the evidence, the scope of the restriction, and the conditions for resuming. Emergency powers need time limits and independent review, so a precautionary intervention cannot drift into an indefinite ban without justification.

Verification will remain incomplete. Some actors will refuse access, and some states may not participate. An international body would face those limits too. Recognising them helps define an honest initial goal: make compliance inspectable and consequential among participants, then expand participation and improve the ability to detect evasion.

That would be progress even before universal agreement. It would not justify claiming that the world's AI risks had been brought under control.

Who keeps the rule-makers accountable?

The strongest objection to this proposal is that it could help concentrate the power it is meant to oversee. Expensive assessments, proprietary tests, and licensing rules shaped by incumbents could make independent development harder while leaving the largest companies comfortable.

That possibility should shape the design from the beginning. Assessment methods should be open to examination, with multiple qualified evaluators and support for small organisations facing legitimate testing costs. Requirements should be justified against capabilities and deployment conditions. New evidence should be able to overturn them. A provider's business model, including whether it releases open models, should not automatically settle the assessment.

The institutions would need published funding, conflict disclosures, transparent appointments, and representation beyond the countries and companies with the most compute. People subject to their decisions should have an appeal route. Industry expertise is necessary, but a company's technical knowledge should not entitle it to decide the acceptable risk for everyone else.

There are limits to agreement as well. A shared framework will not settle every country's views on speech, every dispute over data rights, or every question about distributing AI's economic benefits. It should state its scope clearly while protecting a meaningful minimum. Cooperation that depends on ignoring the rights of people with the least political influence would fail its own purpose.

I am deliberately leaving the final institutional shape open. A treaty body, coordinated national authorities, and a network of accredited evaluators have different strengths and failure modes. We should compare them against the same practical questions: can they obtain the evidence, act on it, withstand pressure, and be held accountable themselves?

When progress creates new obligations

Accountability also matters when a capability works. The defensive-access scenario asks who should receive tools that can find and exploit weaknesses. Restrictions can reduce misuse while excluding under-resourced defenders. Access programmes should explain their criteria, permit challenges, and connect findings to repair capacity. A count of vulnerabilities found is a poor substitute for evidence of protection delivered.

The same responsibility extends through software supply chains. A model’s assessment cannot vouch for every gateway, dependency, or tool server around it. Operators should know which artefacts actually ran and what authority they inherited. After compromise, a clean update may be only one part of recovery: exposed credentials, persistence, and downstream installations need investigation too.

The discovery scenario tests a different definition of success. Generating a result, verifying its argument, and developing shared understanding are distinct contributions. Our reading of Tao’s discussion of related fluid-equation work is that the community’s ability to explain and extend an idea matters beyond the achievement of a solved problem. His post precedes OpenAI’s announcement and should not be treated as a review of that proof.

A builder claiming a research breakthrough should provide precise claims, usable evidence, contribution records, and a plan for explanation and review. Where the original authors cannot develop the work further, an explicit, supported handoff is preferable to silently leaving that work to others. This is a proposed application of traceable responsibility and inspectable evidence, not a requirement that every discovery receive a company or regulator’s permission.

These cases also constrain oversight itself. Costly reviews can entrench incumbents; restrictive access can leave defenders exposed; compulsory approval by established experts can exclude unfamiliar ideas. The framework should make those effects visible and contestable. Its purpose includes preserving the conditions for widely shared progress.

A proposal we can put to work

Common Obligations is an initial proposal. These principles still need sharper definitions, examples from actual deployments, and people willing to argue with the difficult parts. Several draw directly on existing governance work; the test is whether expressing them together makes responsibilities easier to understand and enforce.

A useful next step would be to apply them to three different systems: a foundation model release, an agent with authority to act, and a dataset supplied for consequential decisions. For each, we should be able to name the responsible parties, the evidence required, the independent checks, and the remedy when a commitment fails. Where we cannot, the framework needs more work.

We should also examine a service people depend on: who owns its productive capacity, how its gains are shared, who cannot obtain it, and what voice those people have. A safe system serving only those already able to pay would not settle the question with which this essay began.

I want powerful AI to help more people have enough, with more freedom to shape their lives. That requires both accountable systems and public choices about the economy they enter. We need not predict the end of capitalism, or assume its present form is permanent, to start making those choices explicit.

Sources & editorial approach

Common Obligations is a proposal by Prassanna Ravishankar, not an established standard or certification. Scenarios illustrate possible mechanisms and tradeoffs; their effects are not simulated estimates. Illustrations are AI-generated and do not depict documented incidents.

Sources are linked at the claims they support, using primary accounts where available. Provider statements and advocates’ accounts are identified as such. The full essay was drafted on 8 September 2026; this visual edition explores six scenarios. Reframed on 15 September 2026 around provision, ownership and public voice. The economic examples are conditional arguments, not predictions of employment, prices or the end of capitalism. The six obligations are a practical minimum, not a complete economic programme. Incident accounts distinguish event dates from disclosure dates. Provider claims, reporting, and our interpretations are identified separately. Tao’s 7 September post concerns related work and predates OpenAI’s announcement.

Further foundations: OECD AI Principles · NIST AI Risk Management Framework · An Alien Mind · Open Source AI Definition.